Mechanisms Affecting Predation Success in Wolf Spiders

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Mechanisms Affecting Predation Success in Wolf Spiders MECHANISMS AFFECTING PREDATION SUCCESS IN WOLF SPIDERS by MATTHEW M. STEFFENSON Presented to the Faculty of the Graduate School of The University of Texas at Arlington in Partial Fulfillment of the Requirements for the Degree of DOCTOR OF PHILOSOPHY THE UNIVERSITY OF TEXAS AT ARLINGTON August 2014 Copyright © by Matthew M. Steffenson 2014 All Rights Reserved ii Acknowledgements I’ve often heard it said that, “nothing worth doing is ever easy”. This project was definitely not the exception. I fully believe that completing a graduate degree is a community effort, because the trial of graduate school tests both yourself, as well as those surrounding you. Over the past five years, I have poured my blood, sweat, and tears into this dissertation, and only with the support of an amazing group of mentors, colleagues, friends, and family has it finally reached its culmination. Without further due, here are the people that without which, my dream of teaching college biology would never have happened. I would like to start off thanking my fellow students. The many friends that I have made here at UTA have made the test of graduate school bearable. We have laughed, cried, procrastinated, celebrated, despaired, and ultimately grown together. Oh, and also complained…lots of that. Hey! It’s a graduate student’s right! I thank the following people for their tremendous support and friendship: Matt Moseley (worst officemate EVER), Michelle Green (who will never convert me to veganism), Liz McGinty (crazy cat lady), Whitney Mann (aka Gator, aka replacement crazy cat lady), Corey Roelke (worst distraction EVER), Humera Shaikh (aka brown squirrel), James Pharr (worst card player EVER), Brian Fontenot (grade A shady-looking dude), and Josh Beach-Letendre (tardigrade of UTA). There are two graduate students in particular I would like to thank. Thank you, Christian Cox, for constantly badgering me to experiment, question, write, and present. Without your continuous pressure to strive to be a better graduate student, I would most likely not have gotten where I am today. Also, I still think you’re wrong about the p-value argument…long story. And Jayme Walton, thank you for becoming my closest friend. Without the long drawn out conversations about what is scarier to be attacked by (a iii pterodactyl or a moose?), and the barrage of goofy, sometime nonsensical emails, I would have gone completely crazy. I also thank my committee members, Daniel Formanowicz, James Robinson, Eric Smith, Laura Gough, Chris Brown, and Laura Mydlarz. Special thanks go to Chris Brown. Over the past seven years, he has continued to help guide my career, and was the first person to give me a chance in graduate school. He opened a door that led me to teaching biology at the college level, something I can never thank him enough for. My advisor, Laura Mydlarz also deserves very special thanks. She took me into her lab and has provided me with steadfast direction that has never steered me wrong. Thank you volunteering to adopt me as a student; and in doing so made me learn to go outside my ecology comfort zone. Biochemical assays for the win! I could not have asked for a more phenomenal advisor. I also would also like to thank my family, primarily my parents, Elizabeth and Michael Steffenson. They have always been there for me and encouraged me to follow my dreams. Lastly, I thank my beautiful fiancé, Jen Duncan. The process of finishing my dissertation has been one of the most exhausting and trying periods of my life. And…I would do it all over again just because it allowed me to find you. Some people are worth melting for. Ha! I told you I’d work that in somewhere! Funding for this research was supplied by the American Arachnological Society, the American Museum of Natural History, the University of Texas at Arlington Chapter of the Phi Sigma Society, and the Department of Biology at the University of Texas at Arlington. June 30, 2014 iv Abstract MECHANISMS AFFECTING PREDATION SUCCESS IN WOLF SPIDERS Matthew M. Steffenson, PhD The University of Texas at Arlington, 2014 Supervising Professor: Laura D. Mydlarz Predator-prey interactions play a role in community structure through a variety of different mechanisms including direct consumption, density-mediated indirect effects, and trait-mediated indirect effects. Understanding factors that can influence the efficacy of direct consumption on prey populations can help us to identify the strength of the impact predators can have on lower trophic levels. My dissertation research focuses on how mechanisms like sexual dimorphism, impaired body condition, and starvation stress alter how effective an intermediate predator (i.e. a predator that occupies an intermediate position in the food web) can be in direct consumption of prey. Using wolf spiders as my model, and a combination of laboratory experimental foraging trials and field experiment approaches, I assessed the effectiveness of spiders as predators. My main questions were how sexual dimorphism and limb autotomy affect predatory behaviors in wolf spiders. I also examined the effect of starvation on fitness and immunological trade-offs using biochemical immune assays This research reveals that female wolf spiders are more effective at direct consumption of prey than males due to a combination of body size, trophic morphology, and behavioral dimorphisms. Limb autotomy had no significant effect on foraging success in wolf spiders, although there was a trend of leg autotomy having a negative impact on prey capture ability. Lastly, starvation of spiders leads to an energetic trade-off where individuals appear to sacrifice physiological condition for v investment into immune defense. Findings from this dissertation can be utilized to help further our understanding of how predator-prey interactions shape community structure. vi Table of Contents Acknowledgements .............................................................................................................iii Abstract ............................................................................................................................... v List of Illustrations .............................................................................................................. ix List of Tables ....................................................................................................................... x Chapter 1 Introduction......................................................................................................... 1 1.1 Introduction to Predator-Prey Interactions ................................................................ 1 1.2 Predation Sequence ................................................................................................. 3 1.3 Spiders Role in the Community ................................................................................ 4 1.4 Dissertation Goals .................................................................................................... 7 Chapter 2 Sexual Dimorphic Characters and Their Impact on Predator-prey Interactions .......................................................................................................................... 9 2.1 Introduction ............................................................................................................... 9 2.2 Methods .................................................................................................................. 11 2.2.1 Foraging Trial Design ...................................................................................... 12 2.2.2 Morphological Data Collection ......................................................................... 13 2.2.3 Behavioral Data Collection .............................................................................. 14 2.2.4 Statistical Analysis ........................................................................................... 16 2.3 Results .................................................................................................................... 17 2.4 Discussion .............................................................................................................. 27 Chapter 3 Autotomy and its Effects on Wolf Spider Foraging Success ............................ 31 3.1 Introduction ............................................................................................................. 31 3.2 Methods .................................................................................................................. 33 3.2.1 Study Area and Specimen Collection .............................................................. 33 3.2.2 Experimental Trials .......................................................................................... 34 vii 3.2.3 Statistical Analysis ........................................................................................... 37 3.3 Results .................................................................................................................... 37 3.4 Discussion .............................................................................................................. 42 Chapter 4 The Effect of Food Constraints on Wolf Spider (Tigrosa helluo ) Fitness ............................................................................................................................... 48 4.1 Introduction ............................................................................................................. 48 4.2 Methods .................................................................................................................
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